Nothing
#plots
#wykres funkcji pokrycia dla genu
plotGeneCoverage <- function(gene_id,ex)
{
l<-length(ex)
par(mfcol=c(l,1))
colz <- topo.colors(length(ex))
if(TRUE)
#if (xmapConnected())
{
gd <- gene.details(gene_id)
chr <- gd$space
start <- gd$ranges@start
end <- gd$ranges@start+gd$ranges@width
strand <- gd$strand
title <- paste(ex,gene_id)
for (i in 1:length(ex))
{
out<-regionCoverage(chr,start,end,strand,ex[i])
m <- max(out[,2],ns.rm = FALSE)
mm <- max(m,na.rm=FALSE)
plot(0,0,xlab="Position on the chromosome",
ylab="Nr of reads",
xlim=c(start,end),
ylim=c(0,mm) ,
bg="grey100",
col.axis="tan4" )
lines(out[,1],out[,2],col=colz[i],type="h",xlim=c(start,end),ylim=c(-1,mm))
}
legend("topleft", legend=c(paste("Gene: ",gene_id),paste("Date: ",format(Sys.time(),"%D"))))
legend("topright", legend=c(paste("sample",ex)), fill=(c(col=colz[ex])))
}
else
{
cat("No connection with database! \n")
}
}
plotRegionCoverage <- function(chr, start, end, strand,ex)
{
colz <- topo.colors(length(ex))
l<-length(ex)
par(mfcol=c(l,1))
if(TRUE)
# if (xmapConnected())
{
for (i in 1:length(ex))
{
out<-regionCoverage(chr,start,end,strand, ex[i])
m <- max(out[,2],ns.rm = FALSE)
mm <- max(m,na.rm=FALSE)
plot(0,0,xlab="Position on the chromosome",
ylab="Nr of reads",
xlim=c(start,end),
ylim=c(0,m) ,
bg="grey100",
col.axis="tan4" )
lines(out[,1],out[,2],col=colz[i],type="h")
}
}
else
{
rs <- newSeqReads(chr,start,end,strand)
rs <- getBamData(rs,1:length(ex))
nd.cov <- getCoverageFromRS(rs,1:length(ex))
distrCOVPlot(nd.cov,ex)
}
}
plotExonCoverage <- function(exon_id,ex)
{
colz <- topo.colors(length(ex))
ed <- exon.details(exon_id)
l<-length(ex)
par(mfcol=c(l,1))
if(TRUE)
#if (xmapConnected())
{
chr <- ed$space
start <- ed$ranges@start
end <- ed$ranges@start+ed$ranges@width
strand <- ed$strand
for (i in 1:length(ex))
{
out<-regionCoverage(chr,start,end,strand, ex[i])
m <- max(out[,2],ns.rm = FALSE)
mm <- max(m,na.rm=FALSE)
plot(0,0,xlab="Position on the chromosome",
ylab="Nr of reads",
xlim=c(start,end),
ylim=c(0,m+0.5) ,
bg="grey100",
col.axis="tan4" )
lines(out[,1],out[,2],col=colz[i],type="h")
}
}
else
{
cat("No connection with database! \n")
}
legend("topleft", legend=c(paste("Region - start:",start,"end:",end),paste("Date: ",format(Sys.time(),"%D"))),paste("Exon: ",exon_id))
legend("topright", legend=c(paste("sample",ex)), fill=(c(col=colz[ex])))
}
#histogram
plotCoverageHistogram <- function(chr,start,end,strand,ex, skip=10)
{
if(TRUE)
#if (xmapConnected())
{
out<-regionCoverage(chr,start,end,strand, ex)
outp<- .Call("ghistogram",as.integer(out[,1]),as.integer(out[,2]),as.integer(skip))
hNucleotide<- seq(start,end,skip)
outl<-cbind(hNucleotide,outp)
m <- max(outl[,2])
title <- paste("Histogram for (",ex,chr,start,end,strand,") skip",skip)
plot(0,0,
xlab="Position on the chromosome",
ylab="Nr of reads",
xlim=c(start,end),
ylim=c(0,m) ,
main=title,
bg="grey100",
col.axis="tan4" )
lines(outl[,1],outl[,2],col="navajowhite4",bg="yellow", type="h", las=1 ,cex=1.5)
}
else
{
rs <- newSeqReads(chr,start,end,strand)
rs <- getBamData(rs,ex)
nd.cov <- getCoverageFromRS(rs,ex)
outp<- .Call("ghistogram",as.integer(c(start:end)),as.integer(as.vector(distribs(nd.cov)[[ex]])),as.integer(skip))
hNucleotide<- seq(start,end,skip)
outl<-cbind(hNucleotide,outp)
m <- max(outp)
title <- paste("Histogram for (",ex,chr,start,end,strand,") skip",skip)
plot(0,0,
xlab="Position on the chromosome",
ylab="Nr of reads",
xlim=c(start,end),
ylim=c(0,m) ,
main=title,
bg="grey100",
col.axis="tan4" )
lines(outl[,1],outl[,2],col="navajowhite4",bg="yellow", type="h", las=1 ,cex=1.5)
}
}
plotGeneExonCoverage <- function(gene_id,ex)
{
l<-length(ex)
par(mfcol=c(l+1,1))
par(mar=c(2,2,0.5,0.5))
colz <- topo.colors(length(ex))
if(TRUE)
#if (xmapConnected())
{
gd <- gene.details(gene_id)
ed <- exon.details(gene.to.exon(gene_id))
chr <- gd$space
start <- gd$ranges@start
end <- gd$ranges@start+gd$ranges@width
strand <- gd$strand
estart <- ed$ranges@start
ewidth <- ed$ranges@width
for (i in 1:length(ex))
{
out<-regionCoverage(chr,start,end,strand, ex[i])
m <- max(out[,2],ns.rm = FALSE)
mm <- max(m,na.rm=FALSE)
plot(0,0,xlab="Position on the chromosome",
ylab="Nr of reads",
xlim=c(start,end),
ylim=c(-1.5,mm) ,
#main=title,
bg="grey100",
col.axis="tan4")
lines(out[,1],out[,2],col=colz[i],type="l")
}
eksons <- rnaSeqMap:::.munion(gene_id)
plot(0,0,xlab="Position on the chromosome",
ylab="Nr of reads",
xlim=c(start,end),
ylim=c(-0.5,1) ,
bg="grey100",
col.axis="tan4")
for (i in 1:length(eksons))
{
rect(eksons@start[i],0.5,eksons@start[i]+eksons@width[i],1.5,col="red")
}
legend("bottomleft", legend=c(paste("Gene: ",gene_id)))
legend("bottom", legend=c(paste("Date: ",format(Sys.time(),"%D"))))
legend("bottomright", legend=c(paste("sample",ex),"exon"), fill=(c(col=colz[ex],"red")))
}
else
{
cat("No connection with database! \n")
}
}
#splicing indeks
plotSI <- function(chr,start,end,strand,exp1,exp2)
{
title <- paste("Splicing Index for (",exp1,exp2, chr,start,end,strand,")")
outp <- NULL
if(TRUE)
#if (xmapConnected())
{
out1<-regionCoverage(chr,start,end,strand,exp1)
m1 <- max(out1[,2],ns.rm = FALSE)
s1<-sum(out1[,2])
out2<-regionCoverage(chr,start,end,strand,exp2)
m2 <- max(out2[,2],ns.rm = FALSE)
s2<-sum(out2[,2])
m <- max(m1,m2)
c=(s1/s2)
outp <- .Call("splicingind", as.numeric(out1[,2]), as.numeric(out2[,2]),c)
out <- cbind(out1[,1],outp)
plot(0,0,xlab="Position on the chromosome",
ylab="Nr of reads",
xlim=c(start,end),
ylim=c(-1.5,1.5) ,
main=title,
bg="grey100",
col.axis="tan4" )
out1[,2] <- out1[,2]/m
out2[,2] <- out2[,2]/m
lines(out1[,1],out1[,2],col="blue",type="l")
lines(out2[,1],out2[,2],col="red",type="l")
lines(out[,1],out[,2],col="lawngreen",type="l")
legend("topleft",
legend=c(paste("Sample",exp1),paste("Sample",exp2),"Splicing index"),
fill=c("blue","red","lawngreen"))
legend("bottom",legend=c("The coverage value is normalised by max value"))
}
else
{
rs <- newSeqReads(chr,start,end,strand)
rs <- getBamData(rs,c(exp1,exp2))
nd.cov <- getCoverageFromRS(rs,1:2)
m1 <- max(as.vector(distribs(nd.cov)[[1]]),ns.rm = FALSE)
s1<-sum(as.vector(distribs(nd.cov)[[1]]))
m2 <- max(as.vector(distribs(nd.cov)[[2]]),ns.rm = FALSE)
s2<-sum(as.vector(distribs(nd.cov)[[2]]))
m <- max(m1,m2)
c=(s1/s2)
outp <- .Call("splicingind", as.numeric(as.vector(distribs(nd.cov)[[1]])), as.numeric(as.vector(distribs(nd.cov)[[2]])),c)
out <- cbind(c(start:end),outp)
plot(0,0,xlab="Position on the chromosome",
ylab="Nr of reads",
xlim=c(start,end),
ylim=c(-1.5,1.5) ,
main=title,
bg="grey100",
col.axis="tan4" )
o1 <- as.numeric(as.vector(distribs(nd.cov)[[1]]))/m
o2 <- as.numeric(as.vector(distribs(nd.cov)[[2]]))/m
lines(c(start:end),o1,col="blue",type="l")
lines(c(start:end),o2,col="red",type="l")
lines(c(start:end),out[,2],col="lawngreen",type="l")
legend("topleft",
legend=c(paste("Sample",exp1),paste("Sample",exp2),"Splicing index"),
fill=c("blue","red","lawngreen"))
legend("bottom",legend=c("The coverage value is normalised by max value"))
}
}
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